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Course: Mathematics for Business I
Professor: Sarai Vera Rodríguez
University: UCAM Universidad Católica San Antonio
Unit 1: Vector Spaces
Unit 2: Matrix: Matrix calculus
Unit 3: Linear equations system
Unit 4: Linear Applications
Unit 5: Real Matrix Diagonalization
Unit 6: Quadratic real forms
Theoretical Part: 80%
Exams: Two written exams
Part 1: 30% (Midterm)
Part 2: 50% (Final)
Practical Part: 20%
Individual assignments (one assignment per unit).
Deliverables must be a single PDF document, well-written and legible.
To pass, average grade of all assignments must be 5 or greater.
Students pass if their weighted average is >= 5 after passing all evaluative components.
In case of failing any part (>20% weight), it must be retaken in the same academic year.
Vector Space: An algebraic structure consisting of a set where vector addition and scalar multiplication are possible.
Properties of Vector Addition: 8 Properties
Associativity
Identity element
Inverse element
Commutativity
Properties of Scalar Multiplication: 5. Associativity 6. Identity element 7. Distributivity across vector addition 8. Distributivity across scalar addition
Linear Combinations: A linear combination of vectors is formed by multiplying and adding them using scalars.
Matrix Representation: A way to organize a system of equations for solving.
Types of Matrices: Row, column, square, diagonal, scalar, and identity matrices.
Matrix Operations: Addition and scalar multiplication defined by element-wise operations.
Definition: The determinant of a square matrix provides important properties regarding the matrix.
Properties: 1. Non-null if and only if the matrix is regular. 2. Properties regarding linear combinations and order.
Identified as consistent (has solutions) or inconsistent (no solutions).
Consistent Determined: Unique solution.
Consistent Undetermined: Infinite solutions.
Cramer’s Rule: For unique solutions using determinants for matrix representation of equations.
Gauss-Jordan Method: Transform system into a diagonal matrix to find solutions.
The system is inconsistent if the rank of the coefficient matrix and augmented matrix differ.
A consistent system exists if their ranks are equal.
Course: Mathematics for Business I
Professor: Sarai Vera Rodríguez
University: UCAM Universidad Católica San Antonio
Unit 1: Vector Spaces
Unit 2: Matrix: Matrix calculus
Unit 3: Linear equations system
Unit 4: Linear Applications
Unit 5: Real Matrix Diagonalization
Unit 6: Quadratic real forms
Theoretical Part: 80%
Exams: Two written exams
Part 1: 30% (Midterm)
Part 2: 50% (Final)
Practical Part: 20%
Individual assignments (one assignment per unit).
Deliverables must be a single PDF document, well-written and legible.
To pass, average grade of all assignments must be 5 or greater.
Students pass if their weighted average is >= 5 after passing all evaluative components.
In case of failing any part (>20% weight), it must be retaken in the same academic year.
Vector Space: An algebraic structure consisting of a set where vector addition and scalar multiplication are possible.
Properties of Vector Addition: 8 Properties
Associativity
Identity element
Inverse element
Commutativity
Properties of Scalar Multiplication: 5. Associativity 6. Identity element 7. Distributivity across vector addition 8. Distributivity across scalar addition
Linear Combinations: A linear combination of vectors is formed by multiplying and adding them using scalars.
Matrix Representation: A way to organize a system of equations for solving.
Types of Matrices: Row, column, square, diagonal, scalar, and identity matrices.
Matrix Operations: Addition and scalar multiplication defined by element-wise operations.
Definition: The determinant of a square matrix provides important properties regarding the matrix.
Properties: 1. Non-null if and only if the matrix is regular. 2. Properties regarding linear combinations and order.
Identified as consistent (has solutions) or inconsistent (no solutions).
Consistent Determined: Unique solution.
Consistent Undetermined: Infinite solutions.
Cramer’s Rule: For unique solutions using determinants for matrix representation of equations.
Gauss-Jordan Method: Transform system into a diagonal matrix to find solutions.
The system is inconsistent if the rank of the coefficient matrix and augmented matrix differ.
A consistent system exists if their ranks are equal.